Modernizing pathology and oncology education: integrating genomics, artificial intelligence, and clinical relevance into medical training

Pathology and oncology education are at an inflection point. Beyond abbreviated preclinical blocks, the central problem is pedagogical misalignment with learners who expect relevance, interactivity, and clinical application. We advocate a shift from content delivery to concept integration anchored in clinical reasoning and data literacy. In oncology, trainees must learn to interpret next‑generation sequencing and biomarker profiles, participate in molecular tumor boards, sequence precision therapies, manage toxicities, and incorporate patient‑reported outcomes-competencies rarely taught in a structured way. The digitization of histopathology and the integration of artificial intelligence demand exposure to digital pathology and critical appraisal of algorithmic outputs, including AI‑supported IHC quantification, variant classification, and methylation‑based classifiers. Large language models may enhance self‑directed learning but require faculty oversight, instruction in appraisal and ethics, and safeguards against inaccuracy and overconfidence. Operationalizing these reforms requires institutional commitment, curriculum redesign that integrates pathology, oncology, genomics, and decision‑making, and expanded residency time to acquire competencies in informatics and AI (machine learning, deep learning, supervised and unsupervised methods, and validation). Faculty development, adoption of digital platforms and virtual microscopy, competency‑based assessment, and collaboration with computer scientists, bioinformaticians, and ethicists are essential. Implementation barriers-including limited faculty time, resource constraints, and accreditation requirements-can be mitigated by pilot programs, strategic partnerships, phased integration, and attention to transparency, equity, and accountability. Absent deliberate reform within LCME and ACGME frameworks that currently do not mandate genomics or AI literacy, future physicians will enter practice unprepared for precision medicine. Modernizing curricula to meet the genomics and AI era is therefore urgent.

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Publication Details

Journal
JNCI Journal of the National Cancer Institute
Published
2025-12-07
DOI
https://doi.org/10.1093/jnci/djaf358
Primary Topic
AI in cancer detection
Type
article
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article

Modernizing pathology and oncology education: integrating genomics, artificial intelligence, and clinical relevance into medical training

Fábio Ynoe de Moraes, Ana Carolina de Jesus Paniza
JNCI Journal of the National Cancer Institute
AI in cancer detection
article

Modernizing pathology and oncology education: integrating genomics, artificial intelligence, and clinical relevance into medical training

Fábio Ynoe de Moraes, Ana Carolina de Jesus Paniza
article en

Abstract

Pathology and oncology education are at an inflection point. Beyond abbreviated preclinical blocks, the central problem is pedagogical misalignment with learners who expect relevance, interactivity, and clinical application. We advocate a shift from content delivery to concept integration anchored in clinical reasoning and data literacy. In oncology, trainees must learn to interpret next‑generation sequencing and biomarker profiles, participate in molecular tumor boards, sequence precision therapies, manage toxicities, and incorporate patient‑reported outcomes-competencies rarely taught in a structured way. The digitization of histopathology and the integration of artificial intelligence demand exposure to digital pathology and critical appraisal of algorithmic outputs, including AI‑supported IHC quantification, variant classification, and methylation‑based classifiers. Large language models may enhance self‑directed learning but require faculty oversight, instruction in appraisal and ethics, and safeguards against inaccuracy and overconfidence. Operationalizing these reforms requires institutional commitment, curriculum redesign that integrates pathology, oncology, genomics, and decision‑making, and expanded residency time to acquire competencies in informatics and AI (machine learning, deep learning, supervised and unsupervised methods, and validation). Faculty development, adoption of digital platforms and virtual microscopy, competency‑based assessment, and collaboration with computer scientists, bioinformaticians, and ethicists are essential. Implementation barriers-including limited faculty time, resource constraints, and accreditation requirements-can be mitigated by pilot programs, strategic partnerships, phased integration, and attention to transparency, equity, and accountability. Absent deliberate reform within LCME and ACGME frameworks that currently do not mandate genomics or AI literacy, future physicians will enter practice unprepared for precision medicine. Modernizing curricula to meet the genomics and AI era is therefore urgent.

JNCI Journal of the National Cancer Institute
Queen's University (CA), GenomiCare (China) (CN), Center for Genomic Science (IT)
Openalex Percentile: Top 79%
AI in cancer detection
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